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。
Tajima教授の研究室は、光デバイスとバイオマテリアルの融合を柱とした先端的で応用指向の研究を展開しています。光スイッチング技術では、偏光を分離して高速かつ高効率に動作する全光スイッチの開発を進め、皮相的非線形性の遅れに依存しない超高速スイッチングを実現。一方で、細菌性セルロースを改質したナノセルロース材料の表面制御や、生体高分子の合成反応系を用いたバイオプラスチックの設計にも取り組んでおり、環境に配慮した次世代材料の創出を目指しています。
福田晋司教授の研究室は、腸内細菌と宿主の代謝・免疫応答の関係に注目し、特にプロバイオティクスとしての効果を示すビフィド bacillusや腸内細菌叢の変化が、感染症耐性、糖尿病、心血管疾患など代謝性疾患に与える影響を、ゲノム、トランスクリプトーム、メタボロームの統合的アプローチで解明しています。また、飲料水（炭酸水やミネラルウォーター）の摂取が血糖制御に与える影響や、運動パフォーマンス向上に寄与する腸内細菌の同定についても、臨床的・実験的アプローチを用いて研究を進めています。
Professor Sunghyouk Park's research lab specializes in metabolomics and bioanalytical chemistry, focusing on the discovery of noninvasive metabolic biomarkers for early cancer detection using advanced NMR and mass spectrometry techniques. The lab develops real-time metabolic monitoring methods in live cells, particularly leveraging isotopic labeling and heteronuclear NMR to study cancer cell metabolism and redox dynamics. Key research directions include urine and tissue-based metabolomic profiling for gastric, bladder, and breast cancers, as well as investigating metabolic reprogramming and drug resistance mechanisms in glioblastoma. The lab also explores the structural and dynamic properties of cytoskeletal proteins using solution NMR, linking molecular structure to biological function.
Professor Pyoeng Gyun Choe's research lab specializes in virology and immunology, with a primary focus on understanding the kinetics and durability of humoral immune responses to emerging coronaviruses, including MERS-CoV and SARS-CoV-2. The lab investigates neutralizing and spike protein-specific antibody responses in diverse patient cohorts—ranging from asymptomatic to severely ill individuals—providing critical insights into seropositivity, waning immunity, and the reliability of serologic testing. Their work contributes significantly to pandemic preparedness, vaccine evaluation, and serological surveillance strategies. The lab also explores the correlation between viral load, disease severity, and antibody titers, enhancing our understanding of immune correlates of protection.
Professor Su Cheong Yeom's research lab specializes in advanced gene editing and therapeutic genome engineering, with a focus on developing novel strategies for monogenic and neurological disorders. The lab integrates CRISPR/Cas9 technology, lipid nanoparticles (LNPs), and adeno-associated viruses (AAVs) to achieve precise gene knock-in and regulation, particularly in liver and neuronal tissues. Key research directions include enhancing homology-directed repair efficiency, optimizing in vivo genome editing for stable therapeutic expression, and modeling human diseases using genetically engineered animal models. The lab also explores immune modulation and regenerative mechanisms in the context of gene therapy and autoimmune conditions.
Professor Ji Ye Jung's research lab focuses on clinical and translational studies in infectious diseases, respiratory medicine, and gastrointestinal oncology. The lab investigates antimicrobial resistance in critically ill patients, optimizes antibiotic use in healthcare-associated pathogens, and explores innovative dermatological treatments for acne. Additionally, the lab examines environmental toxicants' impact on lung function and investigates rare malignancies such as hepatoid carcinoma of the pancreas, emphasizing diagnostic biomarkers and clinical outcomes.
Professor Revannath Dnyandeo Nikam's research lab specializes in advanced nanomaterials and 2D materials for next-generation electronic and energy devices. The lab focuses on designing atomically thin materials—such as MoS₂, MoO₂, hBN, and solid electrolytes—for applications in electrochemical transistors, neuromorphic computing, and energy conversion. Key research directions include engineering ionic transport at the atomic scale, developing stable and linear synaptic devices for artificial intelligence hardware, and exploiting atomic defects and 2D heterostructures to achieve precise conductance control. The lab integrates advanced synthesis, in situ characterization, and device physics to enable ultra-low-power, non-volatile memory and logic systems.
Professor Jun-Dong Cho's research lab specializes in interdisciplinary research at the intersection of human-computer interaction, accessible design, and electronic system integration. The lab focuses on developing multimodal, interactive technologies to enhance accessibility in cultural and educational environments—particularly for blind and visually impaired users—through tactile and audio interfaces for visual art experiences. Concurrently, the lab conducts advanced research in VLSI design, including multilayer packaging, routing optimization, and buffer distribution for high-performance integrated circuits. These efforts are unified by a common goal of improving system performance, minimizing signal interference, and enabling more intuitive and inclusive human interaction with complex technologies.
Professor Ok-Nam Bae's research lab focuses on the pathophysiology of cerebrovascular and microvascular complications in diabetes, with a particular emphasis on the role of metabolic stress, oxidative stress, and advanced glycation end products such as methylglyoxal in endothelial dysfunction. The lab investigates endogenous protective molecules like carnosine for their neurovascular protective effects, especially in ischemic stroke and diabetic microangiopathy. A key research direction involves identifying novel biomarkers—such as VEGF—for early detection of dermal and vascular toxicity, supporting safer development of pharmaceuticals and cosmetics. The lab integrates molecular mechanisms with translational applications, aiming to bridge basic science with clinical and pharmaceutical innovation.
Professor Hyeung-Jin Jang's research lab focuses on molecular mechanisms underlying metabolic and inflammatory diseases, with a central emphasis on gut-brain axis signaling, incretin hormone regulation, and targeted cancer therapeutics. The lab investigates the role of taste receptors in enteroendocrine L-cells to understand how dietary nutrients like glucose stimulate GLP-1 secretion, offering insights into novel, safer alternatives to GLP-1 mimetic drugs. Additionally, the lab develops advanced nanotherapeutics—particularly biodegradable porous silicon nanoparticles—for targeted delivery of anti-miRNA agents in ovarian cancer and explores natural compounds like ginsenosides for their anti-inflammatory effects in lung and epithelial tissues via NF-κB modulation.
Yukako Fujishiro教授の研究室は、トポロジカルなスピン構造とその発現する物性に注目し、磁性体におけるスピンキュリオティスやヘッジホッグ格子といった非自明なトポロジカルスピン状態の制御とその物性を解明することを主眼としています。特に、スピンのトポロジーと電子状態の相関が生む巨大な異常ホール効果や、高圧下におけるスピン秩序の消失に伴う特異な電気的応答の解明を進めています。また、新相の創出や、スピンと電気の相互作用を活かした次世代エレクトロニクス材料の設計にも貢献しています。
Tomoya Higo教授の研究室は、反強磁性体や格子フラストレーションが強いスピン系を対象とし、磁気秩序と量子スピン系の新規物性の解明を主眼としています。特に、磁化がほとんどないにもかかわらず強い電気的・磁気的応答を示す反強磁性スピンスケールの新規材料（例：Mn₃Sn、Yb基チalcogenidesスピンゲル）の創出と、そのスピン秩序制御技術の開発を進めています。また、スピントロニクス応用に向けた、反強磁性体を用いた磁気メモリやスイッチング素子の実現可能性を追求しています。
Akira Kakugo教授の研究室では、生物学的分子モーター（キネシン、アクチン・ミオシンなど）を用いた人工分子マシンの設計・構築を柱として、自己組織化とエネルギー駆動による動的自己集合のメカニズムを解明しています。特に、DNAオリガミを用いたナノ構造の設計と、それを基盤とするマイクロチューブ・キネシン系やアクチン・ミオシン系の機能的アセンブリーシステムの開発が進んでいます。これらのシステムは、ナノスケールでの物質輸送や、人工筋・アクチュエータに応用可能な自己駆動型マクロマシンの実現を目指しています。
Yoshihiro Izumi教授の研究室は、がん細胞が放出する膜小胞（EVs）の脂質プロファイルとそのがん進展への寄与を解明する脂質動態学的アプローチを展開しています。特にトリプルネガティブ型乳がん由来のEVsにおける脂質代謝の異常を、超臨界流体クロマトグラフィーを用いた高スループットな脂質体ーム解析によって解明しています。また、代謝プロファイリングと安定同位体ラベル追跡を組み合わせた動的代謝解析により、脂肪酸の代謝特性とがん微小環境への影響を解明しています。
Gaku Tsuji教授の研究室は、皮膚のバリア機能と炎症反応の分子メカニズムに注目し、特にアトピー性皮膚炎の発症に関与する遺伝子（FLG、OVOL1）や転写因子（AHR）の機能解明を進めています。特に、AHR活性化がフィラグリリンやロリクラインの発現を制御し、皮膚の分化・バリア機能に与える影響を細胞・分子レベルで解明しています。また、IL-31やIL-1βを介したかゆや炎症の制御機構についても、皮膚上皮細胞や樹状細胞を用いた実験的アプローチを展開しています。
Hida教授の研究室では、がんの転移を制御する重要なメカニズムの一つである腫瘍血管新生に注目し、腫瘍内皮細胞（TECs）の異常な遺伝的・機能的特性の解明を進めています。特に、TECsが通常の内皮細胞とは異なり遺伝子発現や薬剤耐性、幹細胞様特性を示す点に着目し、抗がん血管新生療法の効果を高めるための新規標的の同定を目指しています。また、CXCR7やMDR1などの分子がTECsの生存・移動に果たす役割の解明も重要な研究テーマです。
石川章太教授の研究室では、高次元理論やトーラス・オルビフォールド上の磁場を伴うコン팩ティファイケーションを基盤に、モジュラー対称性に基づく素粒子のフラバー構造を解明しています。特に、クォークの質量階層やCKM行列の混合角を微調整なしに説明できるモデルの構築を目的とし、モジュラー形式を用いた質量行列の構成が中心的です。また、固定点近傍でのモジュラー形式の性質や、スケルク・シュバルツ位相を導入した有限フラバー群の構成についても深く研究しています。
Professor Jongho Heo's research lab focuses on environmental health, epidemiology, and health policy, with a strong emphasis on air pollution, infectious disease transmission, and health system inequities. The lab employs advanced statistical methods such as age-period-cohort analysis and multivariate modeling to investigate long-term health trends, risk factors for behavioral health issues like Internet addiction, and the socioeconomic determinants of health outcomes. Research also addresses public health challenges such as vaccine hesitancy and the impact of healthcare financing on access and efficiency in South Korea. The lab integrates environmental monitoring, population surveys, and health data analytics to inform evidence-based health policy.
Professor Min-Hwi Kim's research lab specializes in next-generation neuromorphic computing and energy-efficient electronics, focusing on the development of organic and oxide-based resistive memory devices for artificial synapses. The lab pioneers innovative strategies to control conductive filament formation in memristors—particularly through polymer engineering and ion-migration confinement—enabling reliable, multilevel, and flexible synaptic devices. Their work spans from fundamental device physics to practical integration in spiking neural networks and sustainable smart communities, emphasizing low-power, scalable solutions for brain-inspired computing and energy systems.
Professor Jung-Ryul Lee's research lab specializes in advanced structural health monitoring and non-destructive evaluation (NDE) technologies, with a focus on ultrasonic sensing, fiber optic sensors (particularly fiber Bragg gratings), and smart materials for aerospace and aviation applications. The lab develops innovative diagnostic systems for real-time detection of structural defects—such as disbonding, delamination, and blade damage—using ultrasonic wave propagation, optical fiber sensors, and machine learning-based image analysis. Their work bridges electromechanical sensing, materials integrity assessment, and intelligent monitoring systems for critical aeronautical components.
