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。
Sawa教授の研究室は、ウイルスの感染メカニズムと抗ウイルス薬の開発を柱としており、特にJCウイルスの宿主細胞への結合機構やSARS-CoV-2の主プロテアーゼを標的にした経口抗ウイルス薬の創出を進めています。ウイルスの糖鎖結合機構の解明から、臨床応用に結びつく創薬開発までを網羅するトータルなウイルス研究を展開しています。
Professor Guebuem Kim's research lab specializes in coastal geochemistry and hydrogeology, focusing on submarine groundwater discharge (SGD) and its role in coastal nutrient cycling. The lab employs natural radionuclides—particularly radium isotopes (223Ra, 224Ra, 226Ra) and 222Rn—as tracers to quantify SGD fluxes and assess their impacts on coastal ecosystems. Key research directions include understanding the sources and dynamics of groundwater discharge in volcanic island environments, especially in the South Sea of Korea, and evaluating SGD as a major nutrient source driving harmful algal blooms. The lab also develops innovative field techniques for low-level radium detection and real-time monitoring of SGD variability under tidal and seasonal influences.
Professor Youngsuk Nam's research lab specializes in interfacial phenomena and microscale heat transfer, with a focus on designing advanced functional surfaces for enhanced energy and thermal management. Key research directions include the dynamic behavior of droplets and bubbles on structured surfaces, the fabrication of superhydrophobic and superhydrophilic micro/nanostructures, and the development of high-performance wicks for micro heat pipes. The lab combines experimental techniques such as high-speed imaging and microfabrication with numerical modeling to understand and optimize surface wettability, capillary action, and phase change processes at the microscale.
Professor Jinkyoo Park's research lab specializes in data-driven optimization and control for energy systems, with a focus on improving energy efficiency and performance in manufacturing and wind energy applications. The lab develops advanced machine learning and Bayesian optimization techniques to model and predict energy consumption in machine tools and wind farms, emphasizing real-time, cooperative control strategies that account for system-wide interactions. Key research directions include energy prediction using Gaussian processes, cooperative wind farm control to mitigate wake effects, and physics-informed data-driven modeling for sustainable energy systems.
Professor Jinhyung Chon's research lab focuses on sustainable urban and coastal landscape systems, integrating ecological resilience, climate adaptation, and human well-being. The lab investigates green infrastructure—such as urban greenways, street trees, and traditional irrigation systems—through systems thinking and dynamic modeling to enhance carbon sequestration, air quality, and mental health outcomes. Key research directions include adaptive green space management, ecotourism planning, and the role of urban greenery in building climate-resilient cities.
Professor Hyun Soo Kim's research lab focuses on understanding the molecular and metabolic mechanisms underlying cancer development and stem cell biology. The lab investigates oncogenic drivers in glioblastoma through integrated multi-omics analysis, identifying key microRNAs like miR-26a and their roles in tumorigenesis via regulation of tumor suppressors and signaling pathways. It also explores the metabolic reprogramming essential for pluripotent stem cell maintenance, particularly the direct regulation of glycolytic enzymes by core transcription factors. Additionally, the lab examines the pathological and molecular features of biliary tract cancers, especially gallbladder carcinoma, with an emphasis on biomarker discovery and disease progression.
Professor In Young Kim's research lab focuses on the intersection of environmental health and biomedical engineering, with a primary emphasis on understanding the biological impacts of environmental stressors such as ultraviolet radiation and mental stress. The lab investigates molecular mechanisms of skin carcinogenesis and develops advanced physiological signal analysis techniques—particularly using heart rate variability (HRV) and empirical mode decomposition—for early detection of acute stress. Their work aims to bridge clinical applications with innovative signal processing to enable non-invasive, real-time health monitoring and targeted prevention strategies. The lab also explores chemoprevention approaches for skin cancer and stress-related disorders, emphasizing translational research for public health impact.
Masayuki Tsukasaki教授の研究室は、骨・免疫・自己免疫疾患の恒常的バランスを解明するため、T細胞やオステオクロストの機能的役割、特に骨破壊と免疫応答の関係に焦点を当てた研究を推進しています。特に、自己免疫性関節炎や歯周病モデルにおいて、T<sub>H</sub>17細胞が骨破壊を引き起こす一方で、感染防御という有益な機能を果たす可能性を解明しています。また、RANKL/OPG系の骨・免疫調節機構や、骨幹細胞の発生学的起源と機能的クロスティークについても、遺伝子ノックアウトや線画追跡技術を用いて詳細に解析しています。
Professor Tae Won Noh's research lab specializes in the physics of quantum materials, with a focus on correlated electron systems, topological quantum phenomena, and nanoscale ferroic materials. The lab investigates emergent quantum phases in oxide heterostructures, particularly the interplay between electron correlation, spin-orbit coupling, and structural inhomogeneities that give rise to exotic transport and magnetic properties. Using advanced nanoscale characterization techniques such as modified piezoresponse force microscopy and molecular beam epitaxy, the lab explores the fundamental mechanisms behind phenomena like the anomalous Hall effect and polarization fatigue in oxide thin films. Their work bridges quantum materials science and nanoelectronics, aiming to uncover new principles for next-generation quantum devices.
Professor Jongkyeong Chung's research lab focuses on signal transduction pathways regulating cell survival, metabolism, and homeostasis, with a particular emphasis on the roles of kinases such as Akt, STATs, and LKB1 in cellular responses to growth factors, stress, and metabolic cues. The lab investigates key regulatory mechanisms in mitophagy, apoptosis, and energy metabolism using genetic models, including Drosophila, to uncover conserved pathways relevant to human diseases such as cancer, Parkinson’s disease, and metabolic disorders. Recent work highlights the interplay between ubiquitination, kinase signaling, and mitochondrial function in disease pathogenesis.
Professor Kyoung Tai No's research lab specializes in computational and theoretical chemistry, focusing on molecular electronic structure, atomic charge distribution, and intermolecular interactions. The lab develops and applies advanced quantum chemical methods—such as modified partial equalization of orbital electronegativity (PEOE) and polarizable continuum models (PCM)—to study the electronic properties and stability of biomolecular systems, including polypeptides and ionic pairs in solution. Their work also extends to lattice dynamics in microporous materials like zeolites and the quantitative prediction of molecular properties such as polarizability and autoignition temperature through QSPR modeling.
Professor Min Suk Rhee's research lab focuses on food science and materials science, with a strong emphasis on improving food safety, quality, and functionality. The lab investigates the biochemical and palatability characteristics of beef muscles, explores natural antimicrobial agents like essential oils and mustard flour for pathogen inactivation, and examines the impact of processing on the nutritional and functional properties of food products such as laver. Additionally, the lab contributes to materials science through modeling dislocation dynamics in crystalline materials, particularly in understanding dislocation interactions and mechanisms in metals. These interdisciplinary efforts reflect a commitment to advancing both food technology and fundamental materials behavior.
Professor Duck Young Kim's research lab specializes in computational and theoretical materials science, focusing on the discovery and design of novel quantum materials under extreme conditions. The lab explores high-pressure phases of hydrogen-rich compounds, transition metal hydrides, and two-dimensional van der Waals materials to uncover new phenomena such as high-temperature superconductivity, itinerant ferromagnetism, and stable oxygen-rich lithium oxides. Their work combines first-principles density functional theory and many-body calculations to predict materials with promising functionalities for next-generation energy and spintronic applications.
Professor Kangmo Ahn's research lab specializes in environmental health and allergic diseases, focusing on the impact of air pollution and environmental allergens on skin and respiratory health. The lab investigates the molecular mechanisms linking particulate matter (PM2.5) and phthalates to impaired skin barrier function and allergic sensitization, particularly in children. Key research directions include identifying novel allergens in common foods like pistachios and assessing the epidemiological prevalence of asthma, eczema, and food allergies in Korean populations. The lab integrates clinical, molecular, and population-based approaches to understand environmental triggers of atopy and allergic inflammation.
Professor Jong Yeog Son's research lab specializes in advanced oxide-based nanomaterials and functional thin films for next-generation electronic and spintronic devices. The lab focuses on the development and characterization of resistive random-access memory (RRAM), multiferroic materials, and ferroelectric nanostructures, with an emphasis on atomic-scale switching mechanisms and high-density data storage applications. Key research directions include the epitaxial growth of perovskite oxides, nanoscale characterization using advanced microscopy techniques (e.g., CAFM, KFM), and the integration of 2D materials and nanotubes with ferroelectric and resistive oxides for novel memory and logic devices.
Professor Jeonghoon Lee's research lab specializes in environmental hydrology and isotopic geochemistry, focusing on tracing water sources, contaminant transport, and hydrological processes in snowpacks and groundwater systems. The lab employs advanced isotope techniques—particularly dual isotope analysis (δ15N, δ18O) of nitrate and stable isotopes of water (δD, δ18O)—to investigate pollution sources, snowmelt dynamics, and seawater intrusion in coastal aquifers. A key strength lies in developing and applying mechanistic models, such as the mobile-immobile water model, to simulate chemical and isotopic tracer behavior in complex hydrological systems. The lab also integrates microfluidic technologies with mass spectrometry for innovative analytical approaches in environmental and hydrological research.
Sugiyama教授の研究室は、気候変動とその影響に関する地球システムの理解を深めるため、主に熱帯大気循環や水蒸気の変化が極端な降雨に与える影響を、数値モデルと理論的解析を用いて研究しています。特に、温暖化に伴う降水量の極端な変化が大気水分量の変化とどのように関係するかを、モデル間の差異の要因として上昇気流の違いを特定しています。また、気候工学やエネルギー転換の政策的課題についても、国際的な視点を踏まえた分析を展開しています。
Yoshitada Morikawa教授の研究室では、表面科学と計算物理学を基盤とし、半導体・酸化物・金属表面における分子吸着や反応機構を第一原理計算を用いて解明しています。特に、表面の電子状態や振動モードの変化、仕事関数の変化を高精度に予測することで、実験と一致する理論的予測を実現しています。研究の柱は、表面反応のメカニズム解明と、電子的・幾何的要因が表面反応に与える影響の解明です。
高機能なナノ光子材料の設計と応用を柱とする研究を行っています。特に、高屈折率ダイエレクトリックナノ構造におけるミエ共振を利用した光制御技術や、ナノスケールでの光のガイドと変換を実現する1次元光波ガイド、およびその応用としての超解像色印刷や光スイッチング素子の開発が主な研究テーマです。光と物質の強い相互作用を活用した低損失・高効率なナノ光デバイスの創出を目指しています。
Oshima教授の研究室は、水中環境中の化学物質、特にマイクロプラスチックや有機スズ化合物（TBT）の生態リスクを解明することを主眼としています。特に、魚類や巻き貝を用いた実験を通じて、これらの汚染物質が水生生物の生殖機能や行動に与える影響を、分子・個体・集団レベルで解明しています。また、体内動態や生物モニタリング手法の開発にも注力しており、環境保全に資する科学的根拠の構築を目指しています。
