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。
Chung-Yuen Hui教授の研究室は、ソフトマテリアルの力学的挙動と界面挙動に焦点を当てた研究を展開しています。特にエラストマーインキや水gelの破壊力学、接着界面の強度、および拡散制御による相転移挙動の解析が中心です。微小構造の変形安定性やひずみ局在化、ひずみエネルギーの散逸機構についても、実験的・理論的アプローチを併用して解明しています。
中村大輔教授の研究室では、流体力学と機械学習の融合を柱とした先端的研究を推進しています。主に乱流や三次元複雑な流れの低次元モデル化に注力し、深層学習を用いた流動状態推定や、直接時分解シミュレーション（DNS）データを活用した次元削減手法の開発を進めています。特に、畳み込みニューラルネットワークとLSTMを組み合わせた機械学習ベースの低次元モデル（ML-ROM）の構築が中心であり、流体工学分野における知的予測・制御の基盤を構築することを目的としています。
Professor Jiook Cha's research lab focuses on the neural mechanisms underlying psychiatric and neurodevelopmental disorders, with a particular emphasis on the neurobiological substrates of anxiety, depression, eating disorders, and neurocognitive impairments. Using multimodal neuroimaging (fMRI, DTI, structural MRI) and large-scale health data analytics, the lab investigates brain circuitry—especially in the prefrontal cortex, hippocampus, and fronto-accumbal pathways—linked to emotional regulation, reward processing, and cognitive function. The lab also pioneers the application of machine learning to population-level health data for early prediction of neurodegenerative diseases such as Alzheimer’s. A key theme is understanding how early-life exposures (e.g., prenatal SSRIs, sleep disruption) and chronic conditions (e.g., sleep apnea) shape brain development and increase vulnerability to mental illness.
Professor Seung-Ho Yu's research lab specializes in advanced energy storage materials, with a primary focus on next-generation battery technologies. The lab investigates high-capacity anode materials for lithium-ion batteries, including nanostructured transition metal oxides and silicon-based composites, aiming to enhance energy density, cycling stability, and reaction kinetics. A key research direction involves operando characterization techniques—such as synchrotron X-ray diffraction, X-ray microscopy, and tomography—to visualize dynamic structural and morphological changes during battery operation, particularly in lithium metal and lithium-sulfur batteries. The lab also explores innovative nanoarchitectured materials, such as carbon-based cellular nanosheets, for superior electrochemical performance in sustainable energy applications.
Professor In-Sung Yeo's research lab specializes in biomaterials and dental implant technology, focusing on enhancing osseointegration through advanced surface modifications of titanium implants. The lab investigates nano- and micro-scale surface topographies, including anodic oxidation, hydroxyapatite coating, and electrospun nanofibrous scaffolds, to improve bone integration and reduce infection risks. A key research direction involves understanding the interplay between implant surface chemistry, wettability, and bacterial biofilm formation to develop infection-resistant implant surfaces. The lab also explores biomimetic materials such as collagen/silk fibroin blends for tissue engineering applications.
Professor Tae Sup Yun's research lab specializes in the geomechanics and geophysics of gas hydrate-bearing sediments, with a focus on understanding the mechanical behavior, stiffness, permeability, and wave propagation characteristics of hydrate-bearing soils under various stress and hydrate saturation conditions. The lab employs advanced experimental techniques such as triaxial testing, instrumented pressure coring, and small-strain shear wave monitoring to investigate hydrate formation mechanisms, including pore-filling and frame-building, and their impact on sediment stability and geophysical properties. Research also extends to the effects of stress history, cementation, and k0 loading on soil stiffness and collapse behavior in natural and synthetic hydrate-bearing sediments.
Professor Soohyun Park's research lab specializes in next-generation intelligent networking and autonomous systems, with a strong focus on underwater and aerial Internet of Things (IoUT and IoUT) technologies, cooperative multi-agent systems, and quantum-enhanced reinforcement learning for real-time optimization. The lab investigates scalable communication protocols, energy-efficient scheduling, and reliable networking in challenging environments such as deep-sea and aerial domains. Key research directions include underwater acoustic and optical communications, autonomous drone delivery systems, and quantum-accelerated decision-making for Industry 4.0 and smart logistics.
Professor Hojeong Jeon's research lab specializes in advanced biomaterials and biofabrication, focusing on the development of nano- and microstructured surfaces to guide cellular behavior for tissue engineering and regenerative medicine. The lab pioneers laser-based fabrication techniques—such as femtosecond and two-photon laser ablation—to create precise, hierarchical, and biocompatible patterns that mimic the extracellular matrix and endothelial cell alignment. Key research directions include the design of functional scaffolds for vascular and bone tissue engineering, as well as microfluidic platforms for single-cell analysis of bacterial motility and cellular responses. The lab integrates materials science, biophysics, and biomedical engineering to develop rapid, single-step coating and patterning methods for clinical applications.
Professor Hwan Su Yoon's research lab specializes in evolutionary biology and microbial eukaryology, focusing on the origin and diversification of plastids in algae. The lab investigates primary and secondary endosymbiotic events that led to the acquisition of complex plastids, using molecular phylogenetics, genomics, and bioinformatics to reconstruct evolutionary relationships. A central theme is understanding the genomic and cellular consequences of endosymbiosis, particularly gene transfer from plastids to the nucleus and the evolutionary fate of plastid genomes in lineages such as dinoflagellates and picobiliphytes. The lab also explores the diversity and ecology of uncultured marine protists through single-cell genomics and environmental sequencing.
Professor Young-Bin Park's research lab specializes in advanced functional composites and smart materials, with a focus on developing multifunctional materials for structural health monitoring, energy harvesting, and wearable electronics. The lab pioneers the integration of carbon nanomaterials—such as carbon nanotubes, graphene nanoplatelets, and carbon fibers—into polymer matrices to enhance electromechanical, thermal, and structural properties. Key research directions include the design of flexible electronic skins, triboelectric nanogenerators for sustainable energy harvesting, and recyclable sandwich composites for lightweight structural applications. The lab emphasizes scalable fabrication techniques like ultrasonic spray coating, vacuum-assisted resin transfer molding, and thermoforming to bridge the gap between laboratory innovation and industrial application.
Professor Hyunjung Lim's research lab focuses on the epidemiology of non-communicable diseases (NCDs), with a particular emphasis on metabolic health, obesity, and their socioeconomic and lifestyle determinants in South Korea and the broader Western Pacific region. The lab investigates how dietary patterns, weight perception, and socioeconomic status influence the prevalence of metabolic syndrome, hypertension, and related health outcomes across different age groups and populations. Using nationally representative survey data and cohort studies, the lab aims to inform public health policy and intervention strategies tailored to regional and demographic disparities.
Professor Sungyoung Lee's research lab specializes in energy-efficient computing and intelligent systems, with a strong focus on wireless sensor networks, healthcare informatics, and machine learning applications. The lab develops advanced routing and clustering algorithms to enhance energy balancing and network lifetime in resource-constrained environments, while also pioneering IoT-integrated educational platforms and AI-driven mental health detection systems. Current research directions include smart healthcare solutions using social media data, wearable sensor-based human activity recognition, and explainable AI models for chronic disease management such as diabetes.
Moju Zhao教授の研究室では、変形可能で多自由度を有する空中ロボットの開発に注力しています。特に、二重ローターを内蔵した多リンク構造を持つDRAGON型ロボットを用いて、空中での自己変形と全身を用いた空中操作（aerial manipulation）を実現する技術を研究しています。飛行制御、グリップ形状の最適化、およびローターのベクトル制御を統合した新規な制御アーキテクチャの構築が主な研究テーマです。
北森岳彦教授の研究室は、微小な流路を用いた液体の制御と分析技術を基盤とし、医療診断や環境モニタリングに応用可能な高感度・高効率なマイクロフルイディクスチップ技術の開発を進めています。特に、複数サンプルの同時分析が可能なマルチチャネル型マイクロチップや、酵素ラベルを用いた高感度バイオセンシング技術の構築が特徴です。また、ナノスケールの物性や反応挙動を解明するための拡張ナノスケール研究にも進出しています。
Zehuan Hu教授の研究室は、電力需要・発電予測の高精度化と再生可能エネルギー統合型スマートビルの最適運用を柱としています。大規模言語モデルを活用した時系列予測フレームワークの構築や、強化学習を用いた分散型エネルギーシステムの最適スケジューリングに関する革新的な研究を進めています。特に、プロンプト設計を不要とする多様な特徴抽出機構の開発や、エネルギー格差の視点を統合した需要側応答の定量的評価にも注力しています。
Yongjie Zhang教授の研究室では、低炭素鋼の微細組織制御とナノサイズ合金カーバイドの析出挙動に注目し、特に相界面析出による強化機構の解明を進めています。主にバナジウム、ニオブ、チタンなどの微合金化元素が形成するナノカーバイドの析出挙動とその力学的特性への寄与を、三次元原子プローブを用いた高分解能分析を通じて解明しています。また、熱処理条件や化学成分の最適化による鋼の高強度化・高延性化を目的とした材料設計にも取り組んでいます。
Pradeep Khatri教授の研究室は、大気中のエアロゾルと雲の相互作用が気候変動に与える影響を、地上観測（SKYNET, AERONET）と人工衛星データ（CloudSat, CALIPSO）を統合して解明しています。特に、エアロゾルの光学特性（単一散乱アルベド、粒子径分布）と雲微物理の関係、ならびに都市・砂漠・工業地域など異なる大気環境下でのエアロゾルの放射冷却効果や気候影響を、長期間にわたる観測データを用いて定量的に分析しています。COVID-19ロックダウン期のエアロゾル減少が気候に与えた影響の評価も重要な研究テーマです。
Hashida教授の研究室では、次世代無線通信システム、特にIRS（インテリジェントリフレクティングサーフェス）を活用した高度な無線伝送技術の研究が進められています。特に、空中ユーザーを対象とした通信カバレッジ拡張や、多数のIRS要素に起因するチャネル推定のオーバーヘッド低減技術、さらには動的な環境変化に適応する最適なIRS配置設計についての研究が特徴です。これらの研究は、6G通信の実現に不可欠な高効率・高信頼性な無線環境の構築を目的としています。
Motoi Kikusato教授の研究室は、家禽（とくに broiler チキン）の健康と生産性を向上させるため、植物由来の生理活性物質（フィトバイオティクス、オレウロペイン、トレハロースなど）の機能とその分子メカニズムを解明することを主眼としています。特に、熱ストレス下における酸化的な損傷やミトコンドリア機能の変化に注目し、avUCP や PGC-1α といった関連遺伝子の発現制御を解明しています。また、腸管バリア機能や炎症反応、エネルギー代謝の調節機構についても、栄養的介入の可能性を探っています。
Professor Miyoung Kim's research lab specializes in advanced materials science, focusing on the atomic-scale understanding of functional oxides, 2D materials, and hybrid nanocomposites for electronic, optoelectronic, and energy applications. Key research directions include the electronic and structural properties of grain boundaries in perovskite oxides like SrTiO₃, the development of high-performance liquid crystal displays using novel electrode architectures, and the design of MXene-based conductive polymer composites for electromagnetic interference shielding and thermal management. The lab combines advanced characterization techniques—such as transmission electron microscopy, electron energy-loss spectroscopy, and first-principles calculations—with innovative material synthesis to uncover fundamental mechanisms governing electrical, optical, and thermal behaviors at the nanoscale.
