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 Min Jung Kim's research lab focuses on translational biomedical research with a strong emphasis on reproductive health, microbiome dynamics, and cellular protection mechanisms. The lab investigates the role of extracellular vesicles in gamete and reproductive tract communication, explores the impact of gut microbiota on canine health across different physiological and genetic profiles, and develops novel strategies to protect gametes from cryo-damage using mesenchymal stem cells. The lab also examines clinical outcomes in colorectal cancer patients, particularly related to anastomotic complications and low anterior resection syndrome, integrating molecular, clinical, and quality-of-life assessments.
Professor Marc Diederich's research lab focuses on the molecular mechanisms of natural compounds—particularly dietary polyphenols and carotenoids—in cancer prevention and therapy. The lab investigates how compounds like lycopene and curcumin modulate key signaling pathways involved in inflammation, cell proliferation, and apoptosis, with a strong emphasis on their epigenetic and antioxidant effects. A central theme is overcoming the clinical translation barriers of these natural agents through innovative drug delivery systems and combination therapies. The lab also explores the repurposing of existing drugs, such as cardiac glycosides, for cancer immunotherapy.
Professor Kwanpyo Kim's research lab specializes in the synthesis, characterization, and application of two-dimensional nanomaterials, with a strong focus on graphene and its heterostructures. The lab investigates the atomic-scale structure, electronic properties, and mechanical behavior of graphene-based systems, including grain boundaries, twisted bilayer structures, folded graphene (grafold), and graphene nanoribbons. By combining advanced electron microscopy techniques with theoretical modeling, the lab explores how nanostructure engineering can tailor electronic and mechanical properties for next-generation nanoelectronics and 2D heterostructures.
Professor Jia-Qi Huang's research lab specializes in advanced energy storage systems, with a primary focus on next-generation batteries, particularly lithium-sulfur and lithium-metal batteries. The lab investigates interfacial engineering, solid electrolyte interphase (SEI) stabilization, and ion-selective membranes to address critical challenges such as polysulfide shuttling, lithium dendrite growth, and poor cycling stability. By integrating theoretical modeling with experimental innovations, the lab develops functional nanomaterials and tailored electrolyte interfaces to enhance the performance, safety, and longevity of high-energy-density batteries.
Professor Sung-Min Kim's research lab focuses on neurocognitive mechanisms and microbial pathogenesis, with a dual emphasis on enhancing cognitive function through natural compounds and understanding bacterial biofilm formation. The lab investigates the molecular and behavioral effects of gintonin, a ginseng-derived compound, on memory and synaptic plasticity, exploring its potential as a noninvasive cognitive enhancer. Concurrently, the lab examines the role of curli fimbriae and biofilm formation in pathogenic Enterobacter cloacae, particularly the genetic regulation and structural characteristics underlying biofilm development. These interdisciplinary efforts bridge neuroscience and microbiology, aiming to develop novel therapeutic strategies for cognitive disorders and antimicrobial interventions.
Professor Woo Seok Choi's research lab specializes in the epitaxial growth and in-situ characterization of complex oxide thin films, with a focus on understanding and controlling their electronic, structural, and functional properties through topotactic phase transformations and oxygen non-stoichiometry. The lab employs advanced optical spectroscopy and first-principles calculations to probe real-time evolution of electronic structures, lattice dynamics, and emergent phenomena such as metal-insulator transitions and electrocatalytic activity. Key research directions include the design of oxide heterostructures with tunable functionalities for oxide electronics, energy conversion, and spintronic applications.
Professor Yun Bae Kim's research lab specializes in digital transformation, with a focus on the adoption and implementation of emerging technologies such as blockchain, big data, and digital simulation in supply chain and logistics management. The lab investigates technology adoption drivers using theoretical frameworks like TOE, TTF, and FVM, while also advancing simulation methodologies for rare-event analysis in complex systems. Research spans both strategic technology integration and technical innovation in simulation and data analytics.
Professor Ghulam Dastgeer's research lab specializes in the design, fabrication, and characterization of two-dimensional (2D) van der Waals heterostructures for advanced electronic and optoelectronic applications. The lab focuses on atomically thin semiconductors such as transition metal dichalcogenides, black phosphorus, and chalcogenide-based materials to develop high-performance field-effect transistors, p-n diodes, and photodetectors with tunable rectification, high sensitivity, and strong anisotropic responses. Key research directions include heterostructure engineering, interface control, and the exploitation of intrinsic 2D material properties for next-generation nanoelectronics and biosensors.
Professor Seung Hwan Lee's research lab specializes in advanced materials and manufacturing technologies, focusing on lightweight multifunctional composites, wire arc additive manufacturing (WAAM), and thin film-based optical sensors. The lab investigates the development of high-performance materials with combined electromagnetic interference (EMI) shielding and thermal conductivity for aerospace, automotive, and electronic applications, while also advancing process modeling and optimization in additive manufacturing. Additionally, the lab explores ultrafast optical phenomena and heterostructure dynamics using time-resolved x-ray diffraction, contributing to next-generation photonic and sensing devices.
Tsumoto教授の研究室は、抗体の構造・機能解明とその工学的最適化を柱としており、特に高親和性抗体の設計や、病原性細菌のヘム獲得機構の解明を進めています。抗体の安定性や抗原結合機構におけるチロシンの役割を、構造生物学的手法と熱力学的解析を組み合わせて解明しています。また、計算シミュレーションを活用した抗体の機能予測や、医療応用に向けた抗体工学の基盤構築を目的としています。
Akihiro Fujimoto教授の研究室は、がんの遺伝的・ゲノム的背景を解明するため、全ゲノムシーケンシングや長距離読み取りシーケンシングを活用したがんゲノム研究を展開しています。特に、肝細胞癌や胆管癌を対象に、スプライシングの異常や構造的変異、ミクロサテライトの変異様態を網羅的に解析しています。また、遺伝的多様性や進化的要因に関連する毛髪形態の遺伝的基盤の解明や、道路除雪剤の効果予測モデルの構築など、ゲノム研究を越えた応用分野にも広がっています。
Reina Yoshizaki教授の研究室では、超短パルスレーザーを用いた材料加工技術の基礎と応用を研究しています。特に、ガラスやダイヤモンドといった透明で硬い材料に対する高精度・高効率な内部加工や表面加工のメカニズムを解明し、次世代の光集積回路や高機能光学素子の実現を目指しています。時間的・空間的制御を高度に組み合わせたレーザー加工技術の開発が、主な研究の方向性です。
Matsuura教授の研究室では、ウイルス関連疾患の発症機構と治療戦略の解明を柱として、ヘパチティスCウイルス（HCV）やSARS-CoV-2の病原性メカニズムを分子・細胞生物学的手法を用いて解明しています。特にHCVのコアタンパク質と宿主因子（PA28γ）の相互作用が脂肪肝や肝細胞癌の発症に与える影響を解析しており、ウイルス病態の分子基盤を解明しています。また、ウイルスの遺伝子操作技術の開発や、遺伝子導入ベクターの改良（バキュロウイルスベクター）にも取り組んでいます。
Shin Fukudo教授の研究室は、脳-腸軸の機能的・神経内分泌的メカニズムに注目し、特にてんかんや腸疾患（特にIBS）におけるストレス応答や内臓感覚の異常な処理を解明することを目的としています。脳波（EEG）、PET画像、ホルモン動態の測定を用いた多角的アプローチにより、精神的ストレスが腸運動に与える影響や、自己認識の障害（例：アレクシチミア）が身体症状に与える神経的基盤を解明しています。また、神経内分泌系と自律神経系のバランスが疾患発症に与える影響を、臨床的・実験的両面から探求しています。
ムハンマド・サラーーム教授の研究室は、発展途上国における都市化の激しい変化を、主に画像解析と統計モデリングを用いて分析しています。特にカイロやデリーを代表とする都市周辺地域（PUA）の土地被覆変化と都市拡大のメカニズムを、Landsat衛星画像とロジスティック回帰モデルを用いて解明しています。近年では、深層学習を活用した地震被害建物の自動特定にも応用しており、災害対応のための迅速な情報抽出技術の開発も進めています。
Professor Yousung Jung's research lab specializes in computational materials science and theoretical chemistry, focusing on the molecular-level understanding of catalytic reactions and energy conversion processes. The lab investigates electrocatalysts for sustainable energy applications—such as oxygen reduction, nitrogen reduction, and metal-air batteries—using advanced quantum mechanical calculations, particularly density functional theory (DFT). Key research directions include designing efficient, non-precious metal catalysts, elucidating reaction mechanisms at interfaces, and developing accurate electronic structure methods to predict material properties. The lab also explores novel electrode materials for rechargeable batteries, including aqueous zinc-ion and sodium-ion batteries, with an emphasis on stability, kinetics, and ion diffusion pathways.
Professor Inhee Mook-Jung's research lab focuses on the molecular and cellular mechanisms underlying Alzheimer's disease (AD), with a particular emphasis on amyloid-beta (Aβ) metabolism, mitochondrial dysfunction, and protein homeostasis. The lab investigates how glial cells, especially microglia and astrocytes, contribute to Aβ plaque formation and neuroinflammation, as well as the role of post-translational modifications—such as tubulin and tau acetylation—in axonal transport and tau pathology. Using advanced models including transgenic mice, patient-derived brain organoids, and microfluidic neuronal systems, the lab explores therapeutic targets such as HDAC6 and BACE1 to modulate disease progression.
Professor Hyung-Jun Im's research lab specializes in the development and application of advanced nanomaterials and biomedical technologies for disease diagnosis and therapy. The lab focuses on designing targeted drug delivery systems, particularly nanoparticles for immunomodulation and ischemic disease treatment, as well as innovative imaging probes for early detection. Key research directions include the use of gasotransmitters like hydrogen sulfide for anti-inflammatory therapy, radiolabeled nanocarriers for enhanced photodynamic therapy, and quantum dot-based biosensors for sensitive exosome detection. The lab also explores non-pharmacological pain relief methods in neonates, demonstrating a multidisciplinary approach integrating nanomedicine, molecular imaging, and clinical translational research.
Professor Hyung-In Yoon's research lab specializes in digital dentistry and advanced dental materials, focusing on the precision and clinical application of chairside CAD/CAM systems, intraoral scanning accuracy in edentulous patients, and the fabrication of monolithic ceramic restorations using additive manufacturing techniques. The lab investigates the trueness and biocompatibility of zirconia and lithium disilicate crowns, as well as innovative ceramic 3D printing methods such as continuous film supply DLP for high-solid-content zirconia prototypes. Their work bridges digital technology and clinical dentistry, aiming to improve the predictability and efficiency of single-visit dental restorations.
Professor Byeongmoon Lee's research lab specializes in advanced flexible and stretchable electronics, focusing on next-generation wearable and conformal devices for biomedical, robotics, and energy applications. The lab pioneers innovative materials and fabrication techniques—such as intrinsically stretchable interconnects, soft thermoelectrics, and printable metal-vapor-desorption layers—to enable high-performance, freeform electronics on arbitrary-shaped and soft substrates. Key research directions include stretchable hybrid electronics, high-sensitivity pressure and thermal sensors, and ultraflexible optoelectronic systems with real-time imaging capabilities.
