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 Yun-Sil Lee's research lab focuses on molecular mechanisms underlying radiation-induced lung injury and cancer progression, with a central emphasis on stress response proteins such as Hsp27 and signaling molecules like myostatin and GDF-11. The lab investigates the roles of these proteins in fibrosis, apoptosis resistance, and epithelial-mesenchymal transition (EMT), aiming to identify novel therapeutic targets for radiation-induced pulmonary fibrosis and cancer treatment resistance. Current research directions include the development of Hsp27 inhibitors and the modulation of TGF-β superfamily signaling pathways to improve clinical outcomes.
Professor Youngjoon Choi's research lab specializes in tourism, hospitality, and service innovation, with a strong focus on human–robot interaction, experiential tourism, and the impact of emerging technologies such as AI and RFID in service industries. The lab investigates tourist behavior, service quality perceptions, and cognitive-emotional drivers of travel intentions, particularly in post-pandemic and technology-integrated contexts. It also explores the role of digital media and cultural perceptions in shaping travel experiences and destination marketing strategies.
Kunio Kaiho教授の研究室は、地球の過去の環境変動と生物絶滅イベントのメカニズムを、主に微化石（foraminifera）と同位体比（炭素・硫黄・ストロンチウム）を用いて解明しています。特にペルム期末の大絶滅や白亜紀・古第三紀境界の特異な環境変動に注目し、小惑星衝突や巨大火山活動が地球システムに与えた影響を高解像度の地層記録から解明しています。近年では、高分子炭化水素（コロネン）と水銀の同時増加を用いた火山活動の精密な追跡も進めています。
Kohei Sekine教授の研究室は、金・銀触媒を用いた新規炭素–炭素結合形成反応や環化反応の開発を柱とし、特にπ拡張型芳香族骨格や機能性ポリマーの合成に注力しています。特に、ナノスケールの有機半導体材料や有機トランジスタに応用可能な新規bispentalene誘導体やpentalene誘導体の創出が顕著です。反応機構の解明と、触媒の選択性・反応条件の最適化を通じて、材料設計に応用可能な高機能性有機分子の創製を目指しています。
Professor Chung-Mo Park's research lab focuses on plant molecular biology, particularly the genetic and molecular mechanisms underlying plant responses to environmental stresses such as drought, cold, and salinity. The lab investigates transcriptional and post-transcriptional regulation of stress-responsive genes, with a strong emphasis on transcription factors (e.g., MYB, NAC, SPL), microRNAs (e.g., miR166, miR156), and hormone signaling pathways—especially abscisic acid (ABA)—in stress adaptation and development. Key research directions include the regulation of cuticular wax biosynthesis, ROS homeostasis, vascular development, and the integration of sugar signaling with photoperiodic flowering control in *Arabidopsis thaliana*.
Professor Donghyun Kang's research lab focuses on the molecular mechanisms underlying osteoarthritis (OA) and age-related joint diseases, with a particular emphasis on redox homeostasis, chondrocyte senescence, and extracellular matrix metabolism. The lab investigates the roles of key regulators such as selenoproteins, microRNAs (e.g., miR-204), and post-translational modifications (e.g., O-GlcNAcylation) in driving OA pathology. Using integrative approaches combining molecular biology, animal models, and translational studies, the lab aims to identify novel therapeutic targets for degenerative joint diseases.
Professor Sanha Kim's research lab specializes in advanced manufacturing and micro/nanofabrication technologies, with a focus on developing next-generation materials and processes for high-precision electronics and energy systems. Key research directions include engineered nanomaterials for flexible and high-resolution printing, electrostatic adhesion for microscale manipulation, and hybrid manufacturing processes combining micro-electrical discharge machining and laser ablation to enhance precision and efficiency. The lab also investigates structural design strategies for stabilizing lithium-metal anodes to enable high-energy, long-cycle-life batteries.
Professor Na-Young Song's research lab focuses on the intricate molecular mechanisms underlying cancer progression, with a particular emphasis on the tumor microenvironment, redox regulation, and signaling pathways such as NF-κB and STAT3. The lab investigates the dual roles of key regulators like SIRT1 and IKKα in tumorigenesis, exploring their context-dependent functions in genomic stability, inflammation, and metabolic reprogramming. Additionally, the lab examines microbial translocation between the oral and gut microbiomes and its implications in systemic diseases, integrating host-microbe interactions with cancer immunology. Their work bridges molecular oncology, redox biology, and microbiome science to uncover novel therapeutic targets.
Professor Dong-Kwon Lim's research lab specializes in the design and application of plasmonic and hybrid nanomaterials for advanced biomedical technologies. The lab focuses on developing DNA-embedded and radionuclide-doped gold and silver nanoparticles for highly sensitive in vivo imaging, targeted immunotherapy, and long-term cell tracking. Key research directions include nanomaterial synthesis with precise control over size, shape, and shell thickness, as well as the integration of nanomaterials with polymers and 2D materials like MoS₂ for enhanced functionality. The lab also explores plasmonic nanogap structures for ultrasensitive Raman-based biosensing and bioimaging applications.
Professor Peixun Xiong's research lab specializes in the design and development of advanced functional nanomaterials for next-generation energy storage devices, with a primary focus on sodium-ion, potassium-ion, and aqueous zinc-ion batteries. The lab emphasizes innovative materials engineering strategies—such as nanostructuring, carbon matrix confinement, and electrolyte interfacial regulation—to address critical challenges like volume expansion, poor cyclability, and dendrite formation. Key research directions include the synthesis of alloy-based anodes (e.g., Bi, Sb, BiSb), phosphorus-based anodes, and doped carbon nanostructures, alongside fundamental studies on ion transport mechanisms and solid electrolyte interphase (SEI) formation. The lab integrates advanced characterization techniques and computational modeling to guide rational material design for high-performance, stable, and scalable battery technologies.
Toshiyuki Nohira教授の研究室では、塩化物イオンを含む融けた塩系を用いた電気化学的プロセスを通じて希土類金属と遷移金属の合金を制御的に合成する研究を行っています。特に、プラセオジュム・ニッケル系合金の急速な電気析出挙動や、その結晶構造・拡散挙動の解明が主なテーマです。TEMや回折法を用いた微視的解析により、合金形成のメカニズムを明らかにし、次世代のエネルギー材料開発に貢献することを目的としています。
Dai Aoki教授の研究室は、重いフェルミオン系と遷移金属化合物を対象に、強い電子相関が顕著に現れる量子物性の解明を主眼としています。特に、ウラン系化合物におけるスピン三重項超伝導や強磁性超伝導の発見・特性解明に貢献しており、高磁場下での物性測定や新しい化合物の創出を柱としています。また、5f電子の局在的・拡散的性質の両立や、磁気秩序と超伝導の競合状態の理解を目指した理論的・実験的アプローチを展開しています。
中島博明教授の研究室は、頸椎・胸腰椎の脊椎内固定術や脊髄症の手術的治療に注力しており、特に後方固定術におけるC-5 palsyの発症メカニズムや予防戦略の解明を進めています。CT画像を用いた術前評価や、脊柱のアライメント補正に伴う脊髄の後方移動のリスク管理にも重点を置いています。また、画像誘導ナビゲーションを活用した経皮的後方スクリュー挿入の臨床的妥当性についても研究を展開しています。
Yuki Yamada教授の研究室は、人間の認知的・感情的反応に焦点を当てた心理的メカニズムの解明を主眼としています。特に、人間らしい外見を持つ対象が引き起こす「アンビバレンスな感情反応」（例：アンビバレンスの谷）や、特定の視覚的刺激に対する不快感（例：トライフォビア）の認知的・感情的基盤を、行動実験と大規模なアンケート調査を組み合わせて分析しています。また、パンデミック下における心理的ストレスや社会的信頼の変動を国際比較で捉える大規模データの収集・分析にも取り組んでいます。
Professor Eun Young Lee's research lab specializes in the design and synthesis of functional metal-organic frameworks (MOFs) with tailored porosity, stability, and stimuli-responsive properties. The lab focuses on creating porous coordination materials that exhibit high surface areas, permanent microporosity, and exceptional thermal and structural stability—enabling applications in gas storage, selective guest binding, and luminescent sensing. In parallel, the lab investigates the role of extracellular vesicles, particularly exosomes, in inflammatory joint diseases such as rheumatoid arthritis, with an emphasis on their influence on osteoclast differentiation and bone destruction. These interdisciplinary efforts bridge materials science and biomedical research, aiming to develop advanced functional materials and uncover disease mechanisms in autoimmune arthritis.
Professor Muhammad Zada's research lab specializes in the design and development of compact, efficient, and biocompatible antennas and energy harvesting systems for biomedical and wearable electronics. The lab focuses on implantable and wearable wireless communication devices, including miniaturized antennas for cardiac pacemakers, intraoral prosthetics, and smart textiles, with applications in e-healthcare and 5G-enabled health monitoring. Key research directions include metamaterial integration, frequency reconfigurability, and energy harvesting for battery-free wearable sensors.
Professor Kwang Pyo Kim's research lab specializes in extracellular vesicles (EVs) and their roles in intercellular communication, particularly in cancer progression and metastasis. The lab investigates the proteomic and lipidomic profiles of EVs derived from both pathogenic bacteria and human cancer cells, focusing on how these vesicles contribute to disease mechanisms such as immune evasion, tumor microenvironment modulation, and signal transduction. The lab also explores radiation exposure in interventional radiology, emphasizing dose optimization and risk assessment in fluoroscopically-guided procedures. Using advanced mass spectrometry techniques, the lab integrates multi-omics approaches to uncover molecular mechanisms underlying EV biogenesis and function.
Professor Jin Young Oh's research lab specializes in developing skin-like electronic materials and devices with advanced functionalities such as stretchability, self-healing, biocompatibility, and energy autonomy. The lab focuses on creating bioinspired electronics—particularly electronic skin and wearable sensors—by integrating organic semiconductors, conductive polymers like PEDOT:PSS, and 2D nanomaterials such as transition metal dichalcogenides. Key research directions include stretchable and self-healing optoelectronic synapses, wearable energy harvesters (e.g., thermoelectric generators), and solution-processed, deformable electronic systems for next-generation health monitoring and human-machine interfaces. The lab emphasizes practical, scalable fabrication methods to enable real-world applications in smart healthcare and the Internet of Things.
Professor Yan Kyaw Tun's research lab specializes in next-generation wireless communication and edge computing systems, focusing on UAV-aided mobile edge computing, network slicing in 5G/6G networks, and integrated space-air-ground networks. The lab investigates energy-efficient task offloading, resource allocation, and collaborative computing architectures to enhance network performance and support diverse services such as IoT, eMBB, and URLLC. A key emphasis is placed on optimizing latency, energy consumption, and network capacity in dynamic and infrastructure-scarce environments.
Sankar Ganesh Ramaraj教授の研究室は、2次元材料を用いた高感度ガスセンサーや、光ファイバーを応用した表面プラズモン共鳴（SPR）型バイオスセンサの開発を主軸としています。特に、ナニオ材料のドーピング制御やPCF構造の最適化により、感度・分解能・応答速度の向上を実現しています。また、生体適合性・生分解性素材を用いた次世代エネルギーハーベスティングデバイスの研究も展開しており、環境に配慮したスマートセンシング技術の創出を目指しています。
