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。
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.
Professor Je-Wook Yu's research lab focuses on innate immunity and inflammasome biology, with a particular emphasis on the molecular mechanisms underlying NLRP3 and NLRC4 inflammasome activation. The lab investigates how endogenous and exogenous danger signals—such as mitochondrial damage, bacterial outer membrane vesicles, advanced glycation end products (AGEs), and ER-Golgi trafficking—modulate inflammasome signaling in macrophages and its implications in systemic inflammation, neuroinflammation, and depression. A central theme is understanding the crosstalk between cellular organelles, pathogen-associated molecular patterns, and host immune responses in disease pathogenesis.
Professor TaeWon Seo's research lab specializes in the design and control of advanced mobile robots, with a focus on climbing robots, service robots, and underwater robots. The lab develops innovative mechanisms such as underactuated modular systems, compliant joints, and active tail actuators to enable high-speed, high-payload climbing and complex transitions on diverse surfaces. Key research directions include biomimetic locomotion, adaptive control strategies like switching PD-based sliding mode control, and the integration of novel adhesion technologies such as dry elastomer adhesives. The lab also explores applications in hazardous environments and indoor service robotics, aiming to overcome mobility limitations like stair climbing and wall-to-wall transitions.
Professor Won Ju Hwang's research lab focuses on occupational and mental health, with a strong emphasis on psychosocial and environmental factors influencing cardiovascular disease (CVD) risk and mental well-being among blue-collar workers. The lab investigates the effectiveness of mobile health (mHealth) interventions, particularly app-based stress management programs, to improve psychological health and health behaviors in working populations. Research also explores the interplay between work-related stressors, social support, and health outcomes, aiming to inform evidence-based occupational health nursing practices and preventive strategies in small companies.
阿川隆義教授の研究室では、微生物由来の天然物質の新規合成経路の解明と、そのバイオセンスを活用した新規医薬候材料の創出を主な研究テーマとしています。特に、非オルトゴナルな酵素系（PKS/NRPS、非ヘム鉄酸化酵素など）を用いた生合成経路の再構築や、遺伝子クラスターのゲノムマイニングによる新規代謝産物の同定を進めています。また、酵素の立体特異的反応機構や、分子の骨格を巧みに設計・改造する合成生物学的手法の開発にも注力しています。
Numata教授の研究室では、天然バイオポリマーであるシルクを核とした次世代医療材料の開発を進めています。特に、シルクの構造と機能の関係を解明し、生体適合性・生分解性に優れた医療用ハイドロゲルやドラッグデリバリーシステムの設計を目指しています。また、遺伝子治療やがん治療に応用可能なナノスケールのシルクベース複合体の開発も進めており、がん細胞に特異的に向かう機能性材料の創出を実現しています。
宮坂博教授の研究室は、光反応ダイナミクスと分子機能材料の開発を柱としています。特に、超短時間スケールでの光誘起反応（100フェムト秒未満の時間分解測定）を用いて、分子内のエネルギー移動や電子移動、光クロミズム反応の機構を解明しています。また、光応答性分子やフラーレン誘導体、光酸化還元反応系の開発を通じて、次世代の光機能材料の創出を目指しています。
Yusuke Shimoyama教授の研究室は、環境浄化とエネルギー変換を目的とした新規機能材料の開発を主軸としています。特に、二酸化炭素を用いたキチサン誘導体の機能化による染料吸着、イオン液体を用いた相平衡・活性係数の測定、さらには太陽光を用いたCO2回収技術の開発が進んでいます。これらの研究は、持続可能な技術の実現に向けた物質設計とプロセス最適化を柱としています。
本研究室では、食品廃棄物の有効活用と環境汚染が人間の行動に与える影響を主な研究テーマとしています。特に、食品廃棄物を飼料に変換するプロセスにおける生産効率の課題をデータ包絡線分析（DEA）を用いて解明しており、持続可能な資源循環の実現に貢献することを目的としています。また、大気汚染が道徳的行動に与える影響についても国際的規模の調査を実施し、環境要因と人間行動の関連を科学的に解明しています。
西出博之教授の研究室では、有機ラジカルを側鎖に持つハイドロフィリックなポリマーを基盤とした電気化学的活性材料の開発を進めています。特に、水系電解質に適したラジカルポリマーを用いた高速充放電が可能な有機電池や、金属イオンと効果的に錯体を形成するキレート樹脂の開発が主な研究テーマです。これらの材料は、湿式・乾式両方の環境で効率的な電子移動を実現し、次世代のエネルギー変換・貯蔵デバイスに応用可能です。
Professor Wook Song's research lab focuses on the molecular mechanisms underlying skeletal muscle aging and the beneficial effects of exercise on muscle health and metabolic function. The lab investigates how physical activity modulates key signaling pathways—such as apoptosis, myokine secretion, nitric oxide synthase isoforms, and ketone metabolism (e.g., beta-hydroxybutyrate and apelin)—to counteract age-related muscle atrophy and metabolic dysfunction. A central theme is identifying exercise-induced myokines and metabolites as potential therapeutic targets for treating sarcopenia, type 2 diabetes, and cognitive decline. The lab integrates preclinical models with translational human studies to bridge cellular mechanisms and clinical outcomes.
Professor Jae-Young Lim's research lab focuses on aging-related musculoskeletal health, particularly in older adults and patients with chronic conditions such as knee osteoarthritis and hemiplegia. The lab investigates non-invasive therapeutic interventions—including neuromodulation with botulinum toxin and alternative exercise modalities like AQE—to improve pain management, joint mobility, and physical function. Additionally, the lab explores the integration of assistive technologies, such as care robots, in long-term and post-surgical patient care to enhance monitoring efficiency and reduce caregiver burden.
Professor J.K. Choe's research lab specializes in environmental chemistry and engineering, focusing on the fate, transformation, and remediation of emerging contaminants in aquatic systems. Key research directions include the development of advanced sensor technologies—such as fluorescence-based aptasensors—for real-time monitoring of persistent pollutants like PFAS and perchlorate. The lab also investigates catalytic processes, particularly using noble metal and bimetallic catalysts, for the reductive decontamination of fluorinated pharmaceuticals and oxidized pollutants. Additionally, the group conducts mechanistic studies on disinfectant-protein interactions and disinfection byproduct formation to improve water treatment safety and efficiency.
Professor Pyuck-Pa Choi's research lab specializes in advanced materials processing and microstructure characterization, with a focus on additive manufacturing of high-performance alloys and the formation mechanisms of complex intermetallic and long-period stacking ordered (LPSO) phases in magnesium and nickel-based superalloys. The lab investigates defect mitigation strategies such as hot cracking resistance in non-weldable alloys through alloying and microstructural engineering, employing advanced techniques like transmission electron microscopy (TEM) and atom probe tomography (APT) to probe atomic-scale composition and phase evolution. Current research directions include the development of crack-resistant superalloys and the design of high-strength, lightweight Mg-Gd-Zn-Zr alloys with tailored LPSO phases for structural applications.
Professor Dong Jun Kim's research lab specializes in advanced energy storage materials, with a strong focus on organic and solid-state batteries for sustainable and cost-effective energy solutions. The lab explores redox-active organic molecules, nanostructured hosts for alkali metal anodes, and high-conductivity solid electrolytes to address critical challenges such as voltage control, dendrite suppression, and ionic conductivity. Their work bridges molecular design, materials synthesis, and device engineering, emphasizing scalability and practical application in next-generation rechargeable batteries.
